owlps/owlps-positioner/tests/testutil.cc

448 lines
13 KiB
C++

/*
* This file is part of the Owl Positioning System (OwlPS) project.
* It is subject to the copyright notice and license terms in the
* COPYRIGHT.t2t file found in the top-level directory of this
* distribution and at
* http://code.lm7.fr/p/owlps/source/tree/master/COPYRIGHT.t2t
* No part of the OwlPS Project, including this file, may be copied,
* modified, propagated, or distributed except according to the terms
* contained in the COPYRIGHT.t2t file; the COPYRIGHT.t2t file must be
* distributed along with this file, either separately or by replacing
* this notice by the COPYRIGHT.t2t file's contents.
*/
#include "testutil.hh"
#include <cxxtest/TestSuite.h>
#include "stock.hh"
#include "userinterface.hh"
#include "calibrationrequest.hh"
#include "realposition.hh"
#include <fstream>
#include <sstream>
#include <sys/stat.h>
using namespace std ;
vector<CapturePoint> TestUtil::aps ;
vector<Mobile> TestUtil::mobiles ;
vector<Request*> TestUtil::requests ;
vector<Result> TestUtil::results ;
vector<ReferencePoint> TestUtil::reference_points ;
void TestUtil::tear_down()
{
Stock::clear() ;
aps.clear() ;
mobiles.clear() ;
for (auto i = requests.begin() ; i != requests.end() ; ++i)
delete *i ;
requests.clear() ;
results.clear() ;
reference_points.clear() ;
}
void TestUtil::set_up()
{
tear_down() ;
create_mobile_list() ;
create_cp_list() ;
create_request_list() ;
create_result_list() ;
setup_configuration() ;
}
void TestUtil::create_mobile_list()
{
Mobile mobile1 ;
mobile1.set_mac_addr("AA:BB:CC:DD:EE:FF") ;
mobiles.push_back(mobile1) ;
mobile1.set_mac_addr("AA:BB:CC:DD:EE:77") ;
mobiles.push_back(mobile1) ;
}
void TestUtil::create_cp_list()
{
CapturePoint ap1 ;
ap1.set_mac_addr("11:22:33:44:55:01") ;
aps.push_back(ap1) ;
ap1.set_mac_addr("11:22:33:44:55:02") ;
aps.push_back(ap1) ;
ap1.set_mac_addr("11:22:33:44:55:03") ;
aps.push_back(ap1) ;
}
void TestUtil::create_request_list()
{
// Create measurement list
vector < unordered_map<string,Measurement> > measurements(3) ;
Measurement measurement1 ;
measurement1.add_ss(1, -58) ;
measurement1.add_ss(2, -55) ;
measurement1.set_cp(&aps[0]) ;
measurements[0][aps[0].get_mac_addr()] = measurement1 ;
measurement1.clear() ;
measurement1.add_ss(1, -50) ;
measurement1.set_cp(&aps[2]) ;
measurements[0][aps[2].get_mac_addr()] = measurement1 ;
measurement1.clear() ;
measurement1.add_ss(1, -42) ;
measurement1.add_ss(2, -37) ;
measurement1.set_cp(&aps[1]) ;
measurements[0][aps[1].get_mac_addr()] = measurement1 ;
measurement1.clear() ;
measurement1.add_ss(1, -51) ;
measurement1.add_ss(2, -19) ;
measurement1.set_cp(&aps[0]) ;
measurements[1][aps[0].get_mac_addr()] = measurement1 ;
measurement1.clear() ;
measurement1.add_ss(1, -70) ;
measurement1.add_ss(2, -21) ;
measurement1.set_cp(&aps[1]) ;
measurements[1][aps[1].get_mac_addr()] = measurement1 ;
measurement1.clear() ;
measurement1.add_ss(1, -59) ;
measurement1.set_cp(&aps[2]) ;
measurements[1][aps[2].get_mac_addr()] = measurement1 ;
measurement1.clear() ;
measurement1.add_ss(1, -54) ;
measurement1.add_ss(2, -32) ;
measurement1.set_cp(&aps[0]) ;
measurements[2][aps[0].get_mac_addr()] = measurement1 ;
measurement1.clear() ;
measurement1.add_ss(1, -45) ;
measurement1.add_ss(2, -23) ;
measurement1.set_cp(&aps[1]) ;
measurements[2][aps[1].get_mac_addr()] = measurement1 ;
measurement1.clear() ;
measurement1.add_ss(1, -56) ;
measurement1.set_cp(&aps[2]) ;
measurements[2][aps[2].get_mac_addr()] = measurement1 ;
// Create timestamp list
vector<Timestamp> timestamps ;
timestamps.push_back(Timestamp(1265120910725)) ;
timestamps.push_back(Timestamp(1265120911234)) ;
timestamps.push_back(Timestamp(1265120912345)) ;
// Create request list
requests.push_back(new Request(&mobiles[0], timestamps[0],
measurements[0])) ;
Request request2(&mobiles[1], timestamps[1], measurements[1]) ;
reference_points.push_back(ReferencePoint(3.2, 4.1, 3.4)) ;
requests.push_back(new CalibrationRequest(
request2, &reference_points.at(0),
Direction(2), OWL_REQUEST_CALIBRATION)) ;
CalibrationRequest *calibration_request =
dynamic_cast<CalibrationRequest*>(requests.at(1)) ;
if (calibration_request)
calibration_request->reference_point_backward_link() ;
requests.push_back(new Request(&mobiles[0], timestamps[2],
measurements[2])) ;
}
void TestUtil::create_result_list()
{
RealPosition algo ;
for (auto i = requests.begin() ; i != requests.end() ; ++i)
{
CalibrationRequest *calibration_request =
dynamic_cast<CalibrationRequest*>(*i) ;
Result result ;
if (calibration_request)
result = algo.compute(*calibration_request) ;
else
result = algo.compute(**i) ;
results.push_back(result) ;
}
}
void TestUtil::setup_configuration()
{
const std::string config_file_name("/dev/null") ;
const char *argv[] =
{
"owlps-positionerd", // program name
"--config-file", config_file_name.c_str(),
"--positioning.area-start", "0;0;0",
"--positioning.area-stop", "10;15;3",
"--positioning.accept-new-mobiles", "true",
"--positioning.accept-new-cps", "true"
} ;
int argc = 11 ;
UserInterface ui(argc, argv) ;
}
// Create the file output_file_name and fill it with the contents of
// output_lines
void TestUtil::fill_file(const string &output_file_name,
const vector<string> output_lines)
{
// Open the file
std::ofstream output_file ;
output_file.open(output_file_name.c_str()) ;
if (! output_file)
TS_FAIL("Cannot open test file `"+ output_file_name
+"` for creation!") ;
// Write contents to the file
for (auto i = output_lines.begin() ; i != output_lines.end() ; ++i)
output_file << *i ;
output_file.close() ;
}
void TestUtil::remove_file(const string &file_name)
{
if (remove(file_name.c_str()) == -1)
TS_WARN("Cannot remove test file `"+ file_name +"`!") ;
}
void TestUtil::
create_test_csv_file(const string &file_name, bool with_spaces)
{
// Fill name and contents of the test CSV file
vector<string> csv_lines ;
ostringstream line ;
constexpr unsigned int csv_format = OWL_LATEST_AGGREGATION_CSV_FORMAT ;
/* The CSV format to use is documented in the header of InputCSV */
if (with_spaces)
line << "\n \n " ;
line << csv_format ;
line << ';' << mobiles[0].get_mac_addr() ;
line << ';' << static_cast<uint_fast16_t>(requests.at(0)->get_type()) ;
line << ';' << requests.at(0)->get_nb_packets() ;
line << ';' << requests.at(0)->get_time_sent() ;
line << ";0;0;0;0;" ;
line << aps[0].get_mac_addr() ;
line << ';' << 1 ;
line << ';' << requests.at(0)->get_measurements()
.at(aps[0].get_mac_addr()).get_ss(1) ;
line << ';' << aps[2].get_mac_addr() ;
line << ';' << 1 ;
line << ';' << requests.at(0)->get_measurements()
.at(aps[2].get_mac_addr()).get_ss(1) ;
line << ';' << aps[1].get_mac_addr() ;
line << ';' << 1 ;
line << ';' << requests.at(0)->get_measurements()
.at(aps[1].get_mac_addr()).get_ss(1) ;
line << ';' << aps[0].get_mac_addr() ;
line << ';' << 2 ;
line << ';' << requests.at(0)->get_measurements()
.at(aps[0].get_mac_addr()).get_ss(2) ;
line << ';' << aps[1].get_mac_addr() ;
line << ';' << 2 ;
line << ';' << requests.at(0)->get_measurements()
.at(aps[1].get_mac_addr()).get_ss(2) ;
line << '\n' ;
csv_lines.push_back(line.str()) ;
line.str("") ;
line << csv_format ;
line << ';' << mobiles[1].get_mac_addr() ;
CalibrationRequest *calibration_request =
dynamic_cast<CalibrationRequest*>(requests.at(1)) ;
assert(calibration_request) ;
line << ';' << static_cast<uint_fast16_t>(calibration_request->get_type()) ;
line << ';' << calibration_request->get_nb_packets() ;
line << ';' << calibration_request->get_time_sent() ;
line << ';' << reference_points.at(0).get_x() ;
line << ';' << reference_points.at(0).get_y() ;
line << ';' << reference_points.at(0).get_z() ;
line << ';' << static_cast<int>(calibration_request->get_direction()) ;
line << ';' << aps[2].get_mac_addr() ;
line << ';' << 1 ;
line << ';' << calibration_request->get_measurements()
.at(aps[2].get_mac_addr()).get_ss(1) ;
line << ';' << aps[0].get_mac_addr() ;
line << ';' << 1 ;
line << ';' << calibration_request->get_measurements()
.at(aps[0].get_mac_addr()).get_ss(1) ;
line << ';' << aps[1].get_mac_addr() ;
line << ';' << 1 ;
line << ';' << calibration_request->get_measurements()
.at(aps[1].get_mac_addr()).get_ss(1) ;
line << ';' << aps[1].get_mac_addr() ;
line << ';' << 2 ;
line << ';' << calibration_request->get_measurements()
.at(aps[1].get_mac_addr()).get_ss(2) ;
line << ';' << aps[0].get_mac_addr() ;
line << ';' << 2 ;
line << ';' << calibration_request->get_measurements()
.at(aps[0].get_mac_addr()).get_ss(2) ;
line << '\n' ;
if (with_spaces)
line << " \n\
\n\t\n\
\n \t \n\
\n" ;
csv_lines.push_back(line.str()) ;
line.str("") ;
if (with_spaces)
line << '\t' ;
line << csv_format ;
line << ';' << mobiles[0].get_mac_addr() ;
line << ';' << static_cast<uint_fast16_t>(requests.at(2)->get_type()) ;
line << ';' << requests.at(2)->get_nb_packets() ;
line << ';' << requests.at(2)->get_time_sent() ;
line << ";0;0;0;0;" ;
line << aps[2].get_mac_addr() ;
line << ';' << 1 ;
line << ';' << requests.at(2)->get_measurements()
.at(aps[2].get_mac_addr()).get_ss(1) ;
line << ';' << aps[1].get_mac_addr() ;
line << ';' << 1 ;
line << ';' << requests.at(2)->get_measurements()
.at(aps[1].get_mac_addr()).get_ss(1) ;
line << ';' << aps[0].get_mac_addr() ;
line << ';' << 1 ;
line << ';' << requests.at(2)->get_measurements()
.at(aps[0].get_mac_addr()).get_ss(1) ;
line << ';' << aps[1].get_mac_addr() ;
line << ';' << 2 ;
line << ';' << requests.at(2)->get_measurements()
.at(aps[1].get_mac_addr()).get_ss(2) ;
line << ';' << aps[0].get_mac_addr() ;
line << ';' << 2 ;
line << ';' << requests.at(2)->get_measurements()
.at(aps[0].get_mac_addr()).get_ss(2) ;
line << '\n' ;
if (with_spaces)
line << "\n\t\n" ;
csv_lines.push_back(line.str()) ;
// Create and fill the test CSV file
fill_file(file_name, csv_lines) ;
}
// Test equality of two Request comparing pointed values instead of
// pointers and taking care of the unordered_map
bool TestUtil::request_equals(const Request &first,
const Request &second)
{
// Try a classical comparison
if (first == second)
return true ;
// Compare timestamp
if (first.get_time_sent() != second.get_time_sent())
return false ;
// Compare mobile values
if (! (first.get_mobile() && second.get_mobile()))
{
if (first.get_mobile() || second.get_mobile())
return false ;
}
else if (*first.get_mobile() != *second.get_mobile())
return false ;
// Compare measurements
if (first.get_measurements() != second.get_measurements())
if (! measurements_unordered_map_equals(first.get_measurements(),
second.get_measurements()))
return false ;
return true ;
}
// Test equality of two unordered_map<string,Measurement>
bool TestUtil::
measurements_unordered_map_equals(
unordered_map<string,Measurement> first,
unordered_map<string,Measurement> second)
{
if (first.size() != second.size())
return false ;
// For each element in 'first', we look for the same element
// in 'second'
for (auto i = first.begin() ; i != first.end() ; ++i)
{
auto second_measurement = second.find(i->first) ;
if (second_measurement == second.end())
return false ;
if (! measurement_equals(i->second, second_measurement->second))
return false ;
}
return true ;
}
// Test equality of two Measurement comparing pointed values instead of
// pointers
bool TestUtil::measurement_equals(const Measurement &first,
const Measurement &second)
{
// Try a classical comparison
if (first == second)
return true ;
// Compare average_dbm
if (first.get_average_dbm() != second.get_average_dbm())
return false ;
// Compare ap values
if (! (first.get_cp() && second.get_cp()))
{
if (first.get_cp() || second.get_cp())
return false ;
}
else if (*first.get_cp() != *second.get_cp())
return false ;
// Compare ss_list
/*
if (first.get_ss_list() != second.get_ss_list())
return false ;
*/
return true ;
}
bool TestUtil::file_size_equals(const string &file1_name,
const string &file2_name)
{
try
{
return (file_size(file1_name) == file_size(file2_name)) ;
}
catch (...)
{
return false ;
}
}
off_t TestUtil::file_size(const string &file_name)
{
struct stat file_info ;
if (stat(file_name.c_str(), &file_info) != 0)
throw "Cannot get information for file `" + file_name + "`!" ;
return file_info.st_size ;
}